4.6 Article

Hybrid particle swarm optimization for pure integer linear solid transportation problem

期刊

MATHEMATICS AND COMPUTERS IN SIMULATION
卷 207, 期 -, 页码 243-266

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ELSEVIER
DOI: 10.1016/j.matcom.2022.12.019

关键词

Particle swarm optimization; Solid transportation problem; Parameter settings; Sensitivity analysis

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This paper introduces three heuristic algorithms, Initialization Algorithm, Fraction Repair Algorithm, and Negative Repair Algorithm, to enhance the effectiveness of Particle Swarm Optimization (PSO) in solving Pure Integer Linear Solid Transportation Problem (STP). The proposed Hybrid Particle Swarm Optimization (HPSO) algorithm discretizes the continuous search space of PSO to operate in the discrete solution space of STP. The algorithms ensure the validity of HPSO and its ability to find optimal or near optimal solutions, even without strict conditions on the number of non-zero decision variables in STP solutions. Experimental validation and statistical analysis demonstrate the performance and significance of HPSO with different parameter settings.
This paper appends three proposed heuristic algorithms, viz. Initialization Algorithm, Fraction Repair Algorithm and Negative Repair Algorithm, to Particle Swarm Optimization (PSO) and extends its application to Pure Integer Linear Solid Transportation Problem (STP). The chief contribution of the paper is that the proposed Hybrid Particle Swarm Optimization (HPSO) algorithm discretizes the continuous search space of PSO so that it can operate in the discrete solution space of STP with any of the valid parameter settings. The Initialization Algorithm is developed to generate the sufficient number of random solutions for initiating HPSO with a diverse population of given size. Whereas Fraction Repair and Negative Repair Algorithms are developed to ensure that each successive population obtained with HPSO remains in the solution space of STP. The validity of HPSO is examined and illustrated by solving a numerical problem with certain parameter settings. Further, the HPSO demonstrates its ability to obtain an optimal or near optimal solution along with the alternate optimal solution, if it exists. It searches for the solutions even without adhering to the rigid conditions of traditional methods that every solution of STP must have a fixed number of non-zero decision variables. Moreover, the performance of HPSO is tested with three different parameter settings and compared amongst each other to analyze their significance in solving the problem. The performance of HPSO and the variants of parameters are statistically validated through an extensive experimental design.(c) 2022 International Association for Mathematics and Computers in Simulation (IMACS). Published by Elsevier B.V. All rights reserved.

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